Simple Harmonic Motion

Initially two blocks attached to separate springs are just touching at the equilibrium point B as in Figure (a) below. The mass of each block and the spring constant of each spring is noted in the figures. The springs are then compressed by the amounts shown in Figure (b). The blocks are released at the same instant and the surface is frictionless. Where will they hit?
1. To the left of the equilibrium point at A.
2. At the equilibrium point B.
3. To the right of the equilibrium point at C.
4. They will not collide though they may reach the same point..
Initially two blocks attached to separate springs are just touching at the equilibrium point B as in Figure (a) below. The mass of each block and the spring constant of each spring is noted in the figures. The springs are then compressed by the amounts shown in Figure (b). The blocks are released at the same instant and the surface is frictionless. Where will they hit?
1. To the left of the equilibrium point at A.
2. At the equilibrium point B.
3. To the right of the equilibrium point at C.
4. They will not collide though they may reach the same point..
Initially two blocks attached to separate springs are just touching at the equilibrium point B as in Figure (a) below. The mass of each block and the spring constant of each spring is noted in the figures. The springs are then compressed by the amounts shown in Figure (b). The blocks are released at the same instant and the surface is frictionless. Where will they hit?
1. To the left of the equilibrium point at A.
2. At the equilibrium point B.
3. To the right of the equilibrium point at C.
4. They will not collide though they may reach the same point..
Initially two blocks attached to separate springs are just touching at the equilibrium point B as in Figure (a) below. The mass of each block and the spring constant of each spring is noted in the figures. The springs are then compressed by the amounts shown in Figure (b). The blocks are released at the same instant and the surface is frictionless. Where will they hit?
1. To the left of the equilibrium point at A.
2. At the equilibrium point B.
3. To the right of the equilibrium point at C.
4. They will not collide though they may reach the same point..
Initially two blocks attached to separate springs are just touching at the equilibrium point B as in Figure (a) below. The mass of each block and the spring constant of each spring is noted in the figures. The springs are then compressed by the amounts shown in Figure (b). The blocks are released at the same instant and the surface is frictionless. Where will they hit?
1. To the left of the equilibrium point at A.
2. At the equilibrium point B.
3. To the right of the equilibrium point at C.
4. They will not collide though they may reach the same point..
Initially two blocks attached to separate springs are just touching at the equilibrium point B as in Figure (a) below. The mass of each block and the spring constant of each spring is noted in the figures. The springs are then compressed by the amounts shown in Figure (b). The blocks are released at the same instant and the surface is frictionless. Where will they hit?
1. To the left of the equilibrium point at A.
2. At the equilibrium point B.
3. To the right of the equilibrium point at C.
4. They will not collide though they may reach the same point..
Initially two blocks attached to separate springs are just touching at the equilibrium point B as in Figure (a) below. The mass of each block and the spring constant of each spring is noted in the figures. The springs are then compressed by the amounts shown in Figure (b). The blocks are released at the same instant and the surface is frictionless. Where will they hit?
1. To the left of the equilibrium point at A.
2. At the equilibrium point B.
3. To the right of the equilibrium point at C.
4. They will not collide though they may reach the same point..
Initially two blocks attached to separate springs are just touching at the equilibrium point B as in Figure (a) below. The mass of each block and the spring constant of each spring is noted in the figures. The springs are then compressed by the amounts shown in Figure (b). The blocks are released at the same instant and the surface is frictionless. Where will they hit?
1. To the left of the equilibrium point at A.
2. At the equilibrium point B.
3. To the right of the equilibrium point at C.
4. They will not collide though they may reach the same point..
Initially two blocks attached to separate springs are just touching at the equilibrium point B as in Figure (a) below. The mass of each block and the spring constant of each spring is noted in the figures. The springs are then compressed by the amounts shown in Figure (b). The blocks are released at the same instant and the surface is frictionless. Where will they hit?
1. To the left of the equilibrium point at A.
2. At the equilibrium point B.
3. To the right of the equilibrium point at C.
4. They will not collide though they may reach the same point..
Initially two blocks attached to separate springs are just touching at the equilibrium point B as in Figure (a) below. The mass of each block and the spring constant of each spring is noted in the figures. The springs are then compressed by the amounts shown in Figure (b). The blocks are released at the same instant and the surface is frictionless. Where will they hit?
1. To the left of the equilibrium point at A.
2. At the equilibrium point B.
3. To the right of the equilibrium point at C.
4. They will not collide though they may reach the same point..
Initially two blocks attached to separate springs are just touching at the equilibrium point B as in Figure (a) below. The mass of each block and the spring constant of each spring is noted in the figures. The springs are then compressed by the amounts shown in Figure (b). The blocks are released at the same instant and the surface is frictionless. Where will they hit?
1. To the left of the equilibrium point at A.
2. At the equilibrium point B.
3. To the right of the equilibrium point at C.
4. They will not collide though they may reach the same point..
Initially two blocks attached to separate springs are just touching at the equilibrium point B as in Figure (a) below. The mass of each block and the spring constant of each spring is noted in the figures. The springs are then compressed by the amounts shown in Figure (b). The blocks are released at the same instant and the surface is frictionless. Where will they hit?
1. To the left of the equilibrium point at A.
2. At the equilibrium point B.
3. To the right of the equilibrium point at C.
4. They will not collide though they may reach the same point..
Initially two blocks attached to separate springs are just touching at the equilibrium point B as in Figure (a) below. The mass of each block and the spring constant of each spring is noted in the figures. The springs are then compressed by the amounts shown in Figure (b). The blocks are released at the same instant and the surface is frictionless. Where will they hit?
1. To the left of the equilibrium point at A.
2. At the equilibrium point B.
3. To the right of the equilibrium point at C.
4. They will not collide though they may reach the same point..
Initially two blocks attached to separate springs are just touching at the equilibrium point B as in Figure (a) below. The mass of each block and the spring constant of each spring is noted in the figures. The springs are then compressed by the amounts shown in Figure (b). The blocks are released at the same instant and the surface is frictionless. Where will they hit?
1. To the left of the equilibrium point at A.
2. At the equilibrium point B.
3. To the right of the equilibrium point at C.
4. They will not collide though they may reach the same point..
Initially two blocks attached to separate springs are just touching at the equilibrium point B as in Figure (a) below. The mass of each block and the spring constant of each spring is noted in the figures. The springs are then compressed by the amounts shown in Figure (b). The blocks are released at the same instant and the surface is frictionless. Where will they hit?
1. To the left of the equilibrium point at A.
2. At the equilibrium point B.
3. To the right of the equilibrium point at C.
4. They will not collide though they may reach the same point..
Initially two blocks attached to separate springs are just touching at the equilibrium point B as in Figure (a) below. The mass of each block and the spring constant of each spring is noted in the figures. The springs are then compressed by the amounts shown in Figure (b). The blocks are released at the same instant and the surface is frictionless. Where will they hit?
1. To the left of the equilibrium point at A.
2. At the equilibrium point B.
3. To the right of the equilibrium point at C.
4. They will not collide though they may reach the same point..
The diagram below shows a moving block attached to a spring. The block started from maximum stretch at t = 0, and the block has just reached this position and velocity at some time later than zero. If the period is T = 8 s, what is the time t at the instant shown?
1. 0 s
2. 1 s
3. 2 s
4. 3 s
5. 4 s
6. 5 s
7. 6 s
8. 7 s
9. 8 s
The diagram below shows a moving block attached to a spring. The block started from maximum stretch at t = 0, and the block has just reached this position and velocity at some time later than zero. If the period is T = 8 s, what is the time t at the instant shown?
1. 0 s
2. 1 s
3. 2 s
4. 3 s
5. 4 s
6. 5 s
7. 6 s
8. 7 s
9. 8 s
The diagram below shows a moving block attached to a spring. The block started from maximum stretch at t = 0, and the block has just reached this position and velocity at some time later than zero. If the period is T = 8 s, what is the time t at the instant shown?
1. 0 s
2. 1 s
3. 2 s
4. 3 s
5. 4 s
6. 5 s
7. 6 s
8. 7 s
9. 8 s
The diagram below shows a moving block attached to a spring. The block started from maximum stretch at t = 0, and the block has just reached this position and velocity at some time later than zero. If the period is T = 8 s, what is the time t at the instant shown?
1. 0 s
2. 1 s
3. 2 s
4. 3 s
5. 4 s
6. 5 s
7. 6 s
8. 7 s
9. 8 s
The diagram below shows a moving block attached to a spring. The block started from maximum stretch at t = 0, and the block has just reached this position and velocity at some time later than zero. If the period is T = 8 s, what is the time t at the instant shown?
1. 0 s
2. 1 s
3. 2 s
4. 3 s
5. 4 s
6. 5 s
7. 6 s
8. 7 s
9. 8 s
The diagram below shows a moving block attached to a spring. The block started from maximum stretch at t = 0, and the block has just reached this position and velocity at some time later than zero. If the period is T = 8 s, what is the time t at the instant shown?
1. 0 s
2. 1 s
3. 2 s
4. 3 s
5. 4 s
6. 5 s
7. 6 s
8. 7 s
9. 8 s
The diagram below shows a moving block attached to a spring. The block started from maximum stretch at t = 0, and the block has just reached this position and velocity at some time later than zero. If the period is T = 8 s, what is the time t at the instant shown?
1. 0 s
2. 1 s
3. 2 s
4. 3 s
5. 4 s
6. 5 s
7. 6 s
8. 7 s
9. 8 s
The diagram below shows a moving block attached to a spring. The block started from maximum stretch at t = 0, and the block has just reached this position and velocity at some time later than zero. If the period is T = 8 s, what is the time t at the instant shown?
1. 0 s
2. 1 s
3. 2 s
4. 3 s
5. 4 s
6. 5 s
7. 6 s
8. 7 s
9. 8 s
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block returns to the equilibrium point x = 0 first?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium at the same instant.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two spring-and-block sustems that have been stretched or compressed by different amounts. The spring constant for each spring and the mass of each block is noted. Both blocks are released at the same instant. Which block has the fastest speed at the equilibrium point x = 0?
1. The top yellow block.
2. The bottom blue block.
3. Both blocks reach equilibrium with the same speed.
The diagram below shows two pendula pulled to opposite sides. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Where will they hit?
1. A
2. B
3. C
The diagram below shows two pendula pulled to opposite sides. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Where will they hit?
1. A
2. B
3. C
The diagram below shows two pendula pulled to opposite sides. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Where will they hit?
1. A
2. B
3. C
The diagram below shows two pendula pulled to opposite sides. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Where will they hit?
1. A
2. B
3. C
The diagram below shows two pendula pulled to opposite sides. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Where will they hit?
1. A
2. B
3. C
The diagram below shows two pendula pulled to opposite sides. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Where will they hit?
1. A
2. B
3. C
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which reaches equilibrium (i.e. vertical) first?
1. The yellow ball.
2. The blue ball.
3. Both reach equilibrium at the same instant.
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which reaches equilibrium (i.e. vertical) first?
1. The yellow ball.
2. The blue ball.
3. Both reach equilibrium at the same instant.
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which reaches equilibrium (i.e. vertical) first?
1. The yellow ball.
2. The blue ball.
3. Both reach equilibrium at the same instant.
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which reaches equilibrium (i.e. vertical) first?
1. The yellow ball.
2. The blue ball.
3. Both reach equilibrium at the same instant.
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which reaches equilibrium (i.e. vertical) first?
1. The yellow ball.
2. The blue ball.
3. Both reach equilibrium at the same instant.
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which reaches equilibrium (i.e. vertical) first?
1. The yellow ball.
2. The blue ball.
3. Both reach equilibrium at the same instant.
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which reaches equilibrium (i.e. vertical) first?
1. The yellow ball.
2. The blue ball.
3. Both reach equilibrium at the same instant.
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which reaches equilibrium (i.e. vertical) first?
1. The yellow ball.
2. The blue ball.
3. Both reach equilibrium at the same instant.
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which reaches equilibrium (i.e. vertical) first?
1. The yellow ball.
2. The blue ball.
3. Both reach equilibrium at the same instant.
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which reaches equilibrium (i.e. vertical) first?
1. The yellow ball.
2. The blue ball.
3. Both reach equilibrium at the same instant.
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which has the greatest speed at equilibrium (i.e. vertical)?
1. The yellow ball.
2. The blue ball.
3. Both have the same speed at equilibrium.
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which has the greatest speed at equilibrium (i.e. vertical)?
1. The yellow ball.
2. The blue ball.
3. Both have the same speed at equilibrium.
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which has the greatest speed at equilibrium (i.e. vertical)?
1. The yellow ball.
2. The blue ball.
3. Both have the same speed at equilibrium.
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which has the greatest speed at equilibrium (i.e. vertical)?
1. The yellow ball.
2. The blue ball.
3. Both have the same speed at equilibrium.
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which has the greatest speed at equilibrium (i.e. vertical)?
1. The yellow ball.
2. The blue ball.
3. Both have the same speed at equilibrium.
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which has the greatest speed at equilibrium (i.e. vertical)?
1. The yellow ball.
2. The blue ball.
3. Both have the same speed at equilibrium.
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which has the greatest speed at equilibrium (i.e. vertical)?
1. The yellow ball.
2. The blue ball.
3. Both have the same speed at equilibrium.
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which has the greatest speed at equilibrium (i.e. vertical)?
1. The yellow ball.
2. The blue ball.
3. Both have the same speed at equilibrium.
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which has the greatest speed at equilibrium (i.e. vertical)?
1. The yellow ball.
2. The blue ball.
3. Both have the same speed at equilibrium.
The diagram below shows two separate pendula pulled to one side. The starting angle at t = 0 is shown. The mass and length of each pendulum is indicated. The two pendula are released at the same instant. Which has the greatest speed at equilibrium (i.e. vertical)?
1. The yellow ball.
2. The blue ball.
3. Both have the same speed at equilibrium.

Simple Harmonic Motion - Period